Black-hole excision scheme for general relativistic core-collapse supernova simulations - INSPIRE

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Black-hole excision scheme for general relativistic core-collapse supernova simulations

Bailey Sykes
(
- Monash U.
)
,
Bernhard Mueller
(
- Monash U.
)
,
Isabel Cordero-Carrión
(
- Valencia U.
)
,
Pablo Cerdá-Durán
(
- Valencia U.
)
,
Jérôme Novak
(
- LUTH, Meudon
)

Oct 23, 2022

19 pages

Published in:

Phys.Rev.D 107 (2023) 10, 103010

Published: May 8, 2023

e-Print:

2210.12939 [astro-ph.HE]

DOI:

10.1103/PhysRevD.107.103010 (publication)

View in:

ADS Abstract Service

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Abstract: (APS)

Fallback supernovae and the collapsar scenario for long gamma-ray bursts and hypernovae have received considerable interest as pathways to black-hole formation and extreme transient events. Consistent simulations of these scenarios require a general relativistic treatment and need to deal appropriately with the formation of a singularity. Free evolution schemes for the Einstein equations can handle the formation of black holes by means of excision or puncture schemes. However, in constrained schemes, which offer distinct advantages in long-term numerical stability in stellar collapse simulations over well above

10^{4}

light-crossing timescales, the dynamical treatment of black-hole spacetimes is more challenging. Building on previous work on excision in conformally flat spacetimes, we here present the implementation of a black-hole excision scheme for supernova simulations with the coconut-fmt neutrino transport code. We describe in detail a choice of boundary conditions that ensures long-time numerical stability, and also address upgrades to the hydrodynamics solver that are required to stably evolve the relativistic accretion flow onto the black hole. The scheme is currently limited to a spherically symmetric metric, but the hydrodynamics can be treated multidimensionally. For demonstration, we present a spherically symmetric simulation of black-hole formation in an

85 M_{⊙}

star, as well as a two-dimensional simulation of the fallback explosion of the same progenitor. These extend past 9 and 0.3 s after black-hole formation, respectively.

Note:

19 pages, 12 figures. Accepted by PRD. Updated to correct typographical error in funding acknowledgements

References(54)

Figures(17)

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